A constructionist model predicting the emergence, complementarity and classification of the nucleotide bases

Area of Science:

• * Origin of Life Studies
• * Molecular Genetics
• * Theoretical Chemistry

Background:

• * The fundamental building blocks of life, nucleotide bases, have complex origins.
• * Understanding the logical and dynamic processes underlying their emergence is key to deciphering early biochemistry.

Purpose of the Study:

• * To propose and outline an analytical matrix that logically simulates the emergence of vital nucleotide bases.
• * To demonstrate the model's ability to explain base complementarity and chemical classification.

Main Methods:

• * Construction and analysis of a Graph 1 matrix with eight terms in binary triplet configurations.
• * Application of specific dynamic laws and principles of orientation and symmetry within the matrix.
• * Simulation of three successive circular periodic studies to observe base emergence.

Main Results:

• * The matrix successfully models the ordered emergence of adenine, guanine, cytosine, and thymine.
• * Uracil appears in a transitional, intermediate position, consistent with its role in messenger ribonucleic acid (mRNA).
• * The model logically explains the law of base complementarity and their chemical classification.

Conclusions:

• * The proposed matrix offers a strictly logical and dynamic approach to understanding molecular genetics.
• * Future developments could extend to protein sequence formation, analysis, and genetic bioprogramming.